FISHING AND OUTDOOR APPAREL AND INTEGRATED SYSTEMS

Abstract

In some embodiments, the inventive subject matter is directed to a modular waders system that includes: a main waders garment and a covering unit. The covering unit may have multiple functions expressed in one or more layers, the functions being selected from the group of: durability, waterproofness or water resistance, breathability, insulation, cushioning, thermoregulation, and 2-way or 4-way elasticity. The waders system includes a coupling system that makes the covering unit easily donned or removed by the user as conditions dictate. In some embodiments, the inventive subject matter is directed to waders or other garment having a frontside portion with a mobile device holder comprising a flap, the holder configured to contain or couple to a handheld imaging device having a camera, the flap having one edge portion coupled to the other side so that the flap can reposition from a first position to a second position.

Claims

1. A modular waders system, comprising: a main waders garment and a removably couplable covering unit, the covering unit having multiple functions expressed in one or more layers, the functions being selected from the group of: durability, waterproofness or water resistance, breathability, insulation, cushioning, thermoregulation, and 2-way or 4-way elasticity, and wherein the coupling and de-coupling is achieved using a coupling system comprising complementary magnetic and/or mechanical inter-engageable elements disposed on the covering unit and the waders.

2. The waders of claim 1 wherein the waders comprise a waterproof, breathable layer and the covering unit comprises a durability layer.

3. The waders of claim 2 wherein the waders and covering unit are coupled using a coupling system that magnetically and mechanically couple the covering unit to the waders.

4. The waders of claim 2 wherein when waders are coupled to the covering unit, the covering units main body portion is free-floating over the waders.

5. The waders of claim 1 wherein the covering unit comprises a three-dimensional layer.

6. The waders of claim 5 wherein the three-dimensional layer comprises a polymeric material.

7. The waders of claim 6 wherein the three-dimensional layer comprises a molded elastomeric layer.

8. The waders of claim 7 wherein the layer comprises a grid or cellular structure, e.g., a honeycomb structure.

9. A covering unit and waders that couple together through a coupling system, the system comprising complementary, inter-engageable magnetic elements disposed along portions of the covering unit and waders that are to be joined together.

10. The system of claim 9 further comprising an interference or snap coupling system with complementary elements disposed in or more areas to be joined.

11. The system of claim 10 wherein the complementary elements are a pair of engageable male-female parts.

12. The system of claim 1 wherein complementary magnets are associated with the male-female parts to facilitate joining of the parts in a secure connection.

13. The system of claim 1 herein that includes a covering unit wherein the covering unit includes a pattern of perforations to facilitate drainage, drying, or ventilation of water or moisture that is entrapped between the covering unit and waders.

14. A waders or other garment having a frontside portion with a mobile device holder comprising a flap, the holder configured to contain or couple to a handheld imaging device having a camera, the flap having one edge portion coupled to the other side so that the flap can reposition from a first position to a second position.

15. The garment of claim 14 wherein the flap comprises a pouch configure to contain the mobile device, the pouch including a transparent window.

16. The garment of claim 14 wherein the garment comprises fishing waders and the holder is disposed on a front chest area of the waders.

17. The garment of claim 14 wherein the flap is coupled to the garment by a living hinge.

18. The garment of claims 14 wherein a free edge portion of the flap contains fasteners that detachably couple with complementary fasteners on the garment when the flap is moved from a first position to a second position.

19. The garment of claim 14 wherein the repositioning of the flap from a first position to a second position places the imaging device into a position where it has a field view in front of a wearer of the garment.

20. The garment of claim 14 wherein the garment comprises a remote-control system for activating the imaging device.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0022] The appended figures show embodiments according to the inventive subject matter, unless noted as showing prior art. The same reference numbers may be used on identical or different but analogous items, and in some cases analogous features may be shown by adding a series number in front of the reference number, e.g., 14, 114, 214, etc.

[0023] FIGS. 1A-1D show different elevational views of a waders system consisting of a waders and covering unit:

[0024] FIG. 1A/front view, with bib portion raised;

[0025] FIG. 1B/rearview, with bib portion raised;

[0026] FIG. 1C/front view/bib lowered & no covering unit over right leg to illustrate the underlying waders; and

[0027] FIG. 1D/rear view/bib lowered.

[0028] FIG. 2 shows in isolation the removed portion of the covering unit from FIG. 1C.

[0029] FIGS. 3A-3B show side elevational views of a lower portion of a waders system:

[0030] FIG. 3A shows the covering unit as transparent to illustrate its fit over the pants leg of the waders; and

[0031] FIG. 3B shows the covering unit as non-transparent.

[0032] FIGS. 4A-4B show a lower portion of the waders system:

[0033] FIG. 4A shows the covering unit coupled to the waders; and

[0034] FIG. 4B shows the covering unit and waders decoupled (the lower pants legs of the waders being omitted for clarity).

[0035] FIGS. 5A-5B show a waders system in a manner like that of FIG. 4B and with details of a coupling system, with FIG. 5B being an enlargement of a section of the coupling system.

[0036] FIGS. 6A-6B show a waders system in a manner like that of FIG. 4B and with details of another possible coupling system, with FIG. 6B being an enlargement of a section of the coupling system.

[0037] FIGS. 7A-7B show a waders system in a manner like that of FIG. 4B and with details of another possible coupling system, with FIG. 7B being an enlargement of a section of the coupling system.

[0038] FIGS. 8A-8B show a waders system in a manner like that of FIG. 4B and with details of another possible coupling system, with FIG. 8B being an enlargement of a section of the coupling system.

[0039] FIGS. 9A-9B show a waders system in a manner like that of FIG. 4B and with details of another possible coupling system, with FIG. 6B being an enlargement of a section of the coupling system.

[0040] FIGS. 10A-10D show isolated elevational views of a knee protector and pocket therefor:

[0041] FIG. 10A shows a front view of the knee protector pocket, as it would appear on the knee area of a waders system;

[0042] FIG. 10B shows the opposite side (user facing side) of the pocket;

[0043] FIG. 10C shows the pocket of FIG. 10B with a pocket flap lifted so that a knee protector can be fit within the pocket; and

[0044] FIG. 10D shows an elevational view of knee protector configured to fit in the pocket.

[0045] FIGS. 11A-11B show a removable camera or mobile device storage system integrated into the bib area of waders.

[0046] FIG. 11A show the waders with the storage system removed;

[0047] FIG. 11B show the waders with the storage system installed and deployed in a first position for storage; and

[0048] FIG. 11C show the waders with the storage system installed and deployed in a first position for photo taking.

[0049] FIG. 12 shows a cross-sectional view of an exemplary coupling system for coupling the storage system of FIG. 11 to the waders.

DETAILED DESCRIPTION

[0050] Representative embodiments according to the inventive subject matter are shown in FIGS. 1-12.

[0051] Waders are a primary example of a garment that may embody features of the inventive subject matter. However, from the teachings herein, persons skilled in the art will appreciate that the inventive features may be embodied in other forms of garments used by outdoor enthusiasts.

[0052] Referring to the FIGS. 1A-1D, a waders system 1 includes at least a waders 10 having two portions: a lower body portion 2, and an upper body portion 2. The waders system 10 in some, but not necessarily all, embodiments includes a removable covering unit 12 for covering selected portions of waders 10. In certain embodiments, the covering unit covers some or all the lower body portion of waders 10. The waders system includes a coupling system 14 that makes the covering unit easily donned or removed by the user as conditions dictate.

[0053] Looking at waders 10 in more detail, these portions are divided by the waistline 11 of the intended user (i.e., the user a particular sized garment is designed to fit). The lower body portion 2 has two legs, a waist portion (i.e., a belt area) 11, and optional foot covering (i.e., stockingfoot or bootfoot). The upper body portion 3 includes a front chest portion, and a back portion, each extending upwardly from the waist portion 11. In the embodiment shown, the chest and back portions merge together at the sides of a user to encircle the user's body. The waders may include a suspender system 4 for looping over the shoulders of a user. The suspender system may be adjustable using for example sliding straps and buckles. The waders may include an integrated, adjustable belt 5 on the waist portion. Or the waders may simply include a plurality of belt loops disposed around the waist portion for receiving a user-supplied belt.

[0054] The upper body portion may optionally be adapted to be folded or retracted against the inside or outside of the waist or pelvic area of lower body portion when upper body protection is not desired by the user, as indicated in FIGS. 1C-1D. Thus, in some embodiments, the upper body portion may fit inside the body portion in a lowered or retracted position.

[0055] Additionally, the upper body portion may be integral with the lower body portion, or it may be detachable from the lower body portion. However, in either event, it is typically joined to the lower body portion in a waterproof manner.

[0056] The waders 10 may be constructed with a foot covering 6 in a stocking foot model wherein the waders 10 is continuous in material construction throughout the legs of lower body portion and into the feet, configured as to allow for insertion of the feet into an appropriate boot or shoe. In such a model, the feet may have a ruggedized, boot-like construction, which may include a rubber or other outsole material.

[0057] Alternatively, the waders 10 may be constructed with foot covering 6 in a bootfoot model, wherein the legs terminate in boots rather than a stockingfoot or sock. The boots may be integrally attached to the legs to produce a waterproof seal.

[0058] The waders 10 may be constructed of any of a number of durable, natural, or synthetic, waterproof or waterproofable textile or other pliable sheet materials or combinations of materials. Such a layer would be disposed wherever waterproofing is needed. It would typically be configured to cover the user's lower body portion to at least the waist portion. In many applications, it would cover the front chest and back portions. The waders may have a multilayer construction over all or some of its coverage area. Each layer may provide a desired function. Some layers may provide multiple functions.

[0059] A layer with a waterproof function may be an innermost layer, an intermediate layer, or an outermost layer. In some embodiments, the waterproof layer is also a breathable layer.

[0060] Waterproofing with or without breathability can be based on Durable Water Repellency (DWR). A DWR is a coating that is applied to the outside of the fabric (e.g., fluoropolymers, silicones, or hydrocarbons), that increases the contact angle or surface tension of the fabric when water comes in contact with it. This causes the water to bead and simply roll off a garment, instead of allowing it to flatten and seep into the fabric.

[0061] Waterproof/breathable fabrics resist liquid water passing through but allow water vapor to pass through. Their ability to block out rain and snow while allowing vapor from sweat to evaporate leads to their use in rainwear, waterproof outdoor sports clothing, tents, and other applications. Waterproof, breathable materials include microporous membranes like expanded polytetrafluoroethylene (ePTFE) membranes (e.g., Goretex brand membranes), and polyurethane-based membranes.

[0062] Standard laboratory testing protocols define the performance of these fabric types. Water resistance is measured by the amount of water, in mm, which can be suspended above the fabric before water seeps through. Breathability or Moisture Vapor Transmission rate is measured by the rate at which water vapor passes through, in grams of water vapor per square meter of fabric per 24-hour period (g/m2/d), often abbreviated to just g. Typical mid-range fabrics tend to have values of 5,000 mm of water resistance and 5,000 g of breathability; better materials are at least 10,000 mm of water resistance and 10,000 g of breathability; even better materials are at least 15,000 mm of water resistance and 15,000 g of breathability; and the best materials have at least 20,000 mm of water resistance and 20,000 g of breathability. Well known commercially available waterproof, breathable textiles include those sold under the following brand names: GoreTex, eVent MemBrain, Polartec NeoShell, Polartec Power Shield Pro, Dry.Q Elite, DryVent (Formerly Hyvent), H2No, PreCip, Pertex Shield+/AP, and Dermizax.

[0063] Waterproof, breathable membranes may be assembled in multiple layer constructions. Common constructions known in the industry are 2L, 2.5L, 3L, 4L, and 5L assemblies, with the L indicating how many layers of material are in the assembly.

[0064] A 2L shell consists of two layers of fabric, with the outer fabric being a durability layer bonded to the waterproof membrane. There is no liner layer, so a loose liner such as mesh may be used. This separate liner can increase weight but also improve next-to-skin comfort.

[0065] A 2.5L shell consists of two layers of fabric (outer fabric and waterproof membrane) and an inner 0.5L layer of a spray or print-on protective coating. This helps with next-to-skin comfort and prevents oils and contaminants from degrading the performance of the waterproof membrane.

[0066] A 3L shell consists of three layers of fabric: outer face fabric, waterproof membrane, and a liner layer.

[0067] The inventive subject matter contemplates waders and other garments that use, 2L, 2.5L, or 3L assemblies. Further, a given garment may have multiple portions representing any combination of such assemblies. Further, the overall garment or any portion thereof may have additional layering.

[0068] For example, waders may also include an insulation layer to help control a user's body temperature, e.g., thermal insulation like batt filling, natural or synthetic down, wool, felt, etc. Another layer may provide for thermo-regulation and might include electric elements for resistive heating or chambers for receiving heating packs, e.g., thermo-chemical or replaceable electrically resistive heating pods. It may also include a durability layer, i.e., resistance to abrasion and puncture. It may also include a wicking layer with a wicking function. Another layer may provide a comfort layer with a comfort function (i.e., smooth and haptically pleasing) and would be an innermost layer that would face a user's skin. As described in more detail below, the waders may have a modular construction to provide any one or more functions when and where needed by a user.

[0069] In one possible embodiment, the waders 10 may include an insulating layer of a semi-elastic or elastic material such as a foam neoprene or nylon-lined or spandex-lined foam neoprene. Any type of lining material appropriate for use next to the body or clothing of the user which preferably allows for ease of getting into and out of the waders 10 and for comfort in user movement and wearing is contemplated for use in the inventive subject matter. If used, a foam neoprene layer of the waders 10 has a thickness which maximizes the comfort of the user yet provides the desired degree of strength and warmth appropriate required to protect the user from the environmental conditions encountered. In some embodiments, the neoprene thickness in the submersible portions of the waders 10 may be between about 3-5 mm. However, thicker or thinner neoprene may be used, depending on the freedom of body movement desired, environmental temperatures during use and/or desired degree of waders 10 durability. Additionally, areas of the waders 10 may be reinforced with additional layers of neoprene, to provide greater strength and durability.

[0070] The waders 10 may be constructed from a minimum number of individual pieces, thereby reducing labor and the number of waterproof seams required in manufacture. This in turn will tend to increase the integrity and waterproof characteristics of the waders 10. The seams of the waders may be joined and waterproofed in any of a variety of commercially available and/or manufacturing methods. For example, seams may be waterproofed and sealed together with a heat activated adhesive tape having, for example, a urethane backing. Suitable seam sealing tapes are well known and commercially available to persons skilled in the art.

[0071] However, waterproof fabric such as nylon or a urethane coated nylon may also be used when reducing bulk is more important than providing an elastic upper body portion that can accommodate different individuals or movement-related changes in chest diameter.

[0072] Any suitable thickness may be chosen for the layer(s) making up the chest portion of upper body portion 3. However, the upper body portion 3 material may have a thickness less than that of the waders' lower body material.

[0073] Having now described general details of a waders, the following disclosure details various specific features that may be integrated into waders.

[0074] Specific forms of zippers that may be used in wader system 1 include: [0075] Metal zippers are the classic zipper type. The teeth are individual pieces of metal molded into shape and set on the zipper tape at regular intervals. Metal zippers may have teeth made, for example, in brass, aluminum or nickel. All these zippers are basically made from flat wire. A special type of metal zipper is made from pre-formed wire, for example, brass other ductile metals. [0076] Plastic-molded zippers are identical to metallic zippers, except that the teeth are plastic instead of metal. Plastic zippers often use polyacetal resin, though other thermoplastic polymers are used as well, such as polyethylene. [0077] Coil zippers have a slider that runs on two coils on each side; the teeth are formed by the windings of the coils. Two basic types of coils are used: one with coils in spiral form, usually with a cord running inside the coils; the other with coils in ladder form, also called the Ruhrmann type. Coil zippers may be made of polyester, nylon, or other polymers. [0078] Invisible zippers have their teeth hidden behind a tape, so that the zipper is invisible. It is also called the Concealed zipper. The tape's color often matches the garment's, as does the slider's and the puller's. [0079] Reverse coil zippers are a variation of the coil zipper. In a reverse coil zipper, the coil is on the reverse (back) side of the zipper and the slider works on the flat side of the zipper (normally the back, now the front). Unlike an invisible zipper where the coil is also on the back, the reverse coil shows stitching on the front side and the slider accommodates a variety of pulls (the invisible zipper requires a small, teardrop pull due to the small slider attachment). Water resistant zippers are generally configured as reverse coil so that the PVC or other coating can cover the stitching. A rubber or PVC coated reverse zipper is called a waterproof zipper. [0080] Open-ended zippers use a box and pin mechanism to lock the two sides of the zipper into place, often in jackets. Open-ended zippers can be of any of the above-described types. [0081] Two-way open-ended zippers instead of having an insertion pin and pin box at the bottom, a two-way open-ended zipper has a puller on each end of the zipper tape. Someone wearing a garment with this kind of zipper can slide up the bottom puller to accommodate more leg movement without stressing the pin and box of a one-way open-ended zipper. It is most commonly used on long coats. [0082] Two-way closed-ended zippers are closed at both ends. [0083] Magnetic zippers allow for one-handed closure and are used in sportswear. They may be formed by using opposing complementary elements along a supporting zipper tape. [0084] Water or Airtight zippers may have exterior metal segments clamp a waterproof sheeting over concealed zipper teeth. In other cases, a water or airtight zipper is built like a standard toothed zipper, but with a waterproof sheeting (which is made of fabric-reinforced polyethylene, for example, wrapped around the outside of each row of zipper teeth. When the zipper is closed, two facing sides of the plastic sheeting are squeezed tightly against one another between C-shaped clips, both above and below the zipper teeth, forming a double seal. A less common water-resistant zipper is similar in construction to a standard toothed zipper but includes a molded plastic ridge seal similar to the mating surfaces on a Ziploc bag. Such a zipper is easier to open and close than a clipped version, and the slider has a gap above the zipper teeth for separating the ridge seal. This seal is structurally weak against internal pressure and can be separated by pressure within the sealed container pushing outward on the ridges, which simply flex and spread apart, potentially allowing air or liquid entry through the spread-open ridges. [0085] Anti-slide zipper locks allow for the slider to hold in a steady open or closed position, resisting forces that would try to move the slider and open the zipper unexpectedly. There are two common ways this is accomplished. First, the zipper handle can have a short protruding pin stamped into it, which inserts between the zipper teeth through a hole on the slider, when the handle is folded down flat against the zipper teeth. The handle of the zipper is folded flat against the teeth when it is not in use, and the handle is held down by both slider hinge tension and the fabric flap over the engaged teeth. The slider can also have a two-piece hinge assembly attaching the handle to the slider, with the base of the hinge under spring tension and with protruding pins on the bottom that insert between the zipper teeth. To move the zipper, the handle is pulled outward against spring tension, lifting the pins out from between the teeth as the slider moves. When the handle is released, the pins automatically engage between the zipper teeth again. They are called auto-lock sliders. A three-piece version of the above uses a tiny pivoting arm held under tension inside the hinge. Pulling on the handle from any direction lifts the pivoting arm's pins out of the zipper teeth so that the slider can move. [0086] (Source for foregoing discussion of zipper types and constructions: https://en.wikipedia.org/wiki/Zipper)

[0087] The inventive subject matter contemplates waders and other garments with any of the foregoing zipper types or features. Zippers may be used for any opening used for donning or closing areas of a covering unit or waders, including, down the front chest area, leg openings (vertically along the front, sides or back of the garment), pockets, vent areas (e.g, along underarms, side areas of body legs, arms, etc), and coupling systems for coupling covering units and waders or parts or accessories (e.g., camera pouch or other such items).

Modular Waders Systems (Stocking Foot and Boot foot Waders)

[0088] In some embodiments, the inventive subject matter is directed to modular waders systems 1 and components therefor, exemplary embodiments of which are shown in FIGS. 1-10D. The waders system 1 has a main waders garment 10. Removable covering units 12 cover selected portions of the main waders 10. FIG. 1C is a front view of waders 10 with a covering unit place over the lower left leg but removed from the lower right leg, showing just the waders right leg. FIG. 2 shows the removed covering unit 12. FIG. 1D shows rearview of the waders system 1 with covering units 12 over both legs.

[0089] FIGS. 3A-3B show side elevational views of a lower portion of a waders system 1. FIG. 3A shows the covering unit 12 as transparent to illustrate its fit over the lower pants leg of the waders 10; and FIG. 3B shows the covering unit 12 as non-transparent.

[0090] FIGS. 4A-4B show a lower portion of a waders system 1. FIG. 4A shows the covering unit coupled to the waders; and FIG. 4B shows the covering unit and waders decoupled (the lower pants legs of the waders being omitted for clarity).

[0091] Waterproof, breathable-style fishing waders are particularly suitable for modularization because they are generally made from thin materials that are vulnerable to damage during use in intended environments. Accordingly, the modular covering units may be constructed from durable materials that protect the main garment from damage caused by, for instance, thorny brush, fishhooks, and general wear-tear and abrasion.

[0092] Durable materials include tear resistant fabrics made of relatively high denier. Such fabrics include: Cordura nylon, Canvas, neoprene, ballistic non-stretch nylon, stretch nylon, Dyneema, Kevlar, Goretex, or any other desired fabric or sheet material suitable for use in waders systems. Such covering units may also be referred to as overshields. Any layer in a covering unit may also include functional coatings or treatments to provide, for example, waterproofness, antimicrobial action, fire-resistance, etc.

[0093] A covering unit 12 may cover any area of the waders 10 needing protection. Areas include, at least the knee areas of the legs of the waders, at least the shin areas of the legs of the waders, or at least the front thigh areas, at least the knee areas to the ankle areas of the legs of the waders, or at least the shin and front thigh areas. The covering unit may also cover the buttocks region. The protection may fully or partially surround the legs portions. Any combination of regions may be covered by the covering unit. Coverings may also extend upwards from a thigh covering to cover the front pelvic region. In addition to covering any of the foregoing frontal regions, the covering unit may also wrap around the sides of the indicated waders areas to wrap around and cover corresponding side and/or back portions of the waders. For example, covering units could wrap entirely around the legs of a user or it could leave some leg areas uncovered.

[0094] The covering unit 12 generally in the Figures covers from the lower thigh to the ankle areas of the waders and fully surrounds those areas. should cover. In other embodiments, the covering unit covers at least front and side portions of the waders 10. It is particularly desirable to have such a covering unit cover the waders from at least from the front of the knees down to the ankles, which is a common area of failure in conventional waders. As a first example seen in FIGS. 4A-4B, the top portion of the covering unit may include a coupling system 14 formed of two inter-engageable portions 14A disposed on waders 10 and 14B disposed on covering unit 12. In this example, the coupling system consists of a set of spaced apart fasteners 14A, 14B, e.g., magnetic fasteners and/or spaced-apart snaps, that connect to complementary fasteners on the main waders' body. The coupling system portion 14B for the covering unit is disposed circumferentially at the top opening of the covering unit 12, and the complementary coupling system portion 14A for the waders system is disposed around the top of the section of the waders that is to be covered.

[0095] Looking at the waders systems of FIGS. 1-9A, the upper edge portion of the covering unit 12 that goes around the upper thigh portion of a waders includes an edge portion that engages with a complementary edge on the waders. In the illustrated embodiment, the complementary edge portion on the waders is flap 13 that may encircle the waders. The covering unit's outer edge portion engages with the inner side of the flap so that the flap overlaps the top edge to create a storm seal.

[0096] Now looking at the engagement system in more detail, it can be based on inter-engageable elements 15 with complementary elements disposed around the circumference or sections of each engaging edge portion. (Only representative inter-engageable elements are labeled with reference numbers.) In some embodiments, the top edge portion of the covering unit includes a string of spaced-apart magnetic elements or magnetic tape or bands. The flap of the waders includes a corresponding string or tape or band of magnetic elements that are magnetically attracted to those on the covering unit. A complementary pair of magnetic elements can be any combination of ferromagnetic materials, e.g., a pair of magnets with opposite poles aligned, or a magnet and a ferrous metal. The magnetic elements could also be electromagnets. They could also be based on encapsulated ferrofluids.

[0097] In some of the examples shown, the string of magnets consists of a plurality of magnetic elements spaced apart around the circumference of the covering unit's top opening. The spacing can vary from magnet every 1 mm, 2 mm, 3 mm, 4 mm, 5 mm, 6 mm, 7 mm, 8 mm, 9 mm, 10 mm, 15 mm, 20 mm or more. Or there can be an even distribution with magnets at 10, 20, 30, 40, 50, 60, 70, 80, 90, 100, or 120 degrees apart. In other embodiments, the spacing can be uneven intervals. It need not be fully circumferential. For example, it may suffice to have inter-engageable elements at just the front and back sides of the legs of the waders system. In short, the parameters can vary so long as the engagement yields a secure attachment along the circumference or attaching sections of the covering unit and the waders through conditions of intended use.

[0098] The inventive subject matter contemplates that in some embodiments, the engaging portions of the covering unit and the waders may include an additional engagement mechanism to facilitate connection and alignment of connection sections. In some embodiments, the top edge portion of the covering unit includes one or more mechanical inter-engageable elements that engage with complementary engageable elements on the waders. In some embodiments, one element is a male part that engages with a complementary female part. It does not matter which part goes on the covering unit or which part goes on the waders. The inter-engageable elements may be interspersed in line with a line inter-engageable magnetic elements, or they may be offset above or below the line of magnetic elements. The male-female parts may lock in an interference or snap fit, for example. If a snap-fit is not provided, the inter-engagement will resist displacement of horizontal forces by virtue of the interference fit. To prevent vertical displacement, the male-female parts may be held in place with complementary magnetic elements. The male-female parts themselves could be one or more complementary magnets and/or regions of material surrounding or adjacent the parts could be complementary magnetic elements.

[0099] Magnets can be molded into polymers to create magnet elements that magnetically couple to one another or another ferromagnetic element. This process involves, for example, incorporating magnetic particles or ferromagnetic materials into a polymer matrix during the molding or manufacturing process. Here follows how it may typically be done: [0100] Magnetic Particles: Magnetic particles, such as ferrite, neodymium, or other magnetic materials, are often used. These particles are mixed with the polymer resin in a controlled manner. [0101] Molding Process: The mixture of magnetic particles and polymer resin is then subjected to a molding process. This can include techniques like injection molding, compression molding, or extrusion, depending on the specific application and the desired shape of the final product. [0102] Alignment of Magnetic Particles: During the molding process, the magnetic particles are typically aligned in the desired direction of magnetization. This alignment is crucial for achieving the desired magnetic properties in the final product. [0103] Curing or Cooling: The molded composite of polymer and magnetic particles may undergo curing (for thermosetting polymers) or cooling (for thermoplastic polymers) to solidify the material and maintain the alignment of magnetic particles. [0104] Post-Processing: In some cases, additional post-processing steps may be required to optimize the magnetic properties and the shape of the final product. This can include magnetizing the material to enhance its magnetic strength.

[0105] In some embodiments, the inter-engageable elements are a circumferential rail and a complementary, circumferential channel disposed around a knee area of the waders that engages with the rail. The rail may be disposed on a flap of the waders, and the channel may be disposed at top of covering unit. The rail may include a magnetic strip or set of spaced apart magnets. The channel included a complementary ferromagnetic material for magnetic engagement. The rail and channel may also be configured for a snap fit or other male-female engagement. Naturally, the parts may be reversed where the rail is disposed on the covering unit and the channel on the waders. The rail and channel may be made of flexible plastic or rubbery materials that conform to the curvatures of the garment and which resiliently yield to allow for a secure but removeable snap-fit connection. Suitable materials may include moldable polymers like thermoplastics, elastomers, and thermoplastic elastomers. The magnetic elements may be molded into a moldable polymer or otherwise integrated into or coupled with the structures formed of such material.

[0106] By providing a full circumferential connection of a rail as a male element engaging into the recess of channel as the female element, the coupling may act as a zip lock waterproof seal. By including magnetic elements, that seal is enhanced.

[0107] In addition to the foregoing magnetic systems, there are also commercially available systems. See, for example, those available through Fidlock.com.

[0108] The inventive subject matter contemplates that the modular covering units may be free-floating or substantially detached coverings that provide added protection against pin holes, punctures, abrasion. Except for where it couples to the cover top edge area at the opening of the covering unit, and optionally at the bottom edge area, By configuring the covering unit to be free-floating it is disconnected from the outer surface of the waders so that penetrations of the covering do not necessarily continue through to a surface of the waders. Therefore, the waders' surface is less vulnerable to penetration because it is decoupled from the covering and can independently yield away from an object penetrating the covering unit.

[0109] Any modular covering unit or overshield may have multiple functionals expressed in one or more layers. Functional attributes include durability, waterproofness or water resistance, breathability, insulation, cushioning, thermoregulation, and 2-way or 4-way elasticity. A given function may be expressed in a single layer of material or a given layer may express multiple functions. Accordingly, a modular covering or overshield unit according to the inventive subject matter may have 1, 2, 3, 4, or more layers with any combination of functions selected from the aforementioned list.

[0110] In some embodiments, the covering unit, consists of a 2-layer version, with at least one layer having 2- or 3-way elasticity. One layer may be a highly puncture and tear resistant layer of Kevlar or like puncture-resistant material.

[0111] In some embodiments, the covering layer may include a reinforced, protective knee pad over the knee area.

[0112] In other embodiments, a covering unit may consist of or include a neoprene layer that fully covers the legs of the user, to provide warmth when the user's legs are immersed in water. The upper portion of the waders may have a waterproof/breathable construction.

[0113] In some embodiments, the covering unit includes a thick durable material layer that has an appreciable height or depth (thickness) dimension, in contrast to standard textiles that have no appreciable depth dimension, only length and width (i.e., two dimensionality). Such a layer may be referred to as a 3D layer to distinguish from relatively thin layers typical of textiles, which have no structural characteristics. The depth dimension may be at least 2 mm.

[0114] The durable material layer in covering unit can be any rugged material that can be fashioned with an appreciable height, and which has flexibility to allow for user movements. The material layer may be fashioned as a 3D component to protect selected anatomy like knees, thighs, elbows, and/or shin areas. In some embodiments, the protective or cushioning function may be a relatively thick layer of a polymeric material, e.g., an elastomer with a cellular or grid form, e.g., the honeycomb form.

[0115] Any 3D layer may be integrated into a garment, i.e., non-removably coupled to it or it may be removable. FIGS. 10A-10D show isolated elevational views of a knee protector 16 and pocket 18 therefor that may be placed on the inside or outside of the knee area of a covering unit. FIG. 10A shows a front view of the knee protector pocket, as it would appear on the knee area of a waders system. FIG. 10B shows the opposite side (user facing side) of the pocket. FIG. 10C shows the pocket of FIG. 10B with a pocket flap lifted so that a knee protector can be fit within the pocket. And FIG. 10D shows an elevational view of knee protector configured to fit in the pocket. In some embodiments, the knee protector is fixedly disposed on the covering unit or waders.

[0116] Advantageously, by placing the removable knee pad in a pocket, the user can add protection when needed, e.g., in rough or rocky terrain, and remove it when not needed, e.g., in sandy or soft mud river or lake bottoms, or non-rocky or brushy shores, or boat fishing. Placement of the protective pads in or on the covering unit instead of the waders provides protection to the waders against puncture or abrasion. Such placement provides fishermen a unique opportunity to use a protective knee pad without direct abrasion or tear exposure like they could experience with a wader that has built in knee pads. This provides added protection to the waders against puncture of abrasion because there is no direct exposure to the waterproof membrane. Instead, additional layers of the covering unit protect the waterproof membrane.

[0117] Accordingly, covering units that are configured with non-removable and/or removable protective pads provide a substantial advantage over traditional waders that have built in protection. 3D layers that provide the aforementioned attributes of protection and durability will have a general thickness of at least 3 mm, 5 mm, 7 mm, or 10 mm. They may have a general thickness of from about 3 mm to about 50 mm. A general thickness means the cross-sectional thickness. In the case of a solid material with uniformly spaced opposing outer walls, there is no variation in thickness across the layer. In the case of a material that has apertures or surface depression, the general thickness would be the distance of the outer profiles of the opposing walls, i.e., the greatest the outermost surface points on the walls. In the case of material that might taper in thickness of have variable thickness, and average thickness could be used.

[0118] The durable, protective, or cushioning layer may be an elastomeric material that can be molded with a desired pattern such as the honey-comb pattern shown. Elastomeric materials fashioned with honeycomb patterns or other grid or cellular patterns so that the layer has openess or hollowness to allow for lighter weight durability layers and protective energy dissipation. Such materials are well known and used in many applications including pads for protecting body parts, and they can be fashioned by persons skilled in the art using known polymers and polymer molding techniques. Other examples, of 3D durability layer materials could be based on foamed polymers like EVA or PU. The 3D durability layers could be placed in high abrasion or impact areas, for example, knee and/or shin areas. In addition to grids or cells, other patterns that could provide energy dissipation or abrasion resistance include corrugations, raised protuberances spaced over a surface, and other such features that relative to a sheet material with a continuous surface improve energy dissipation or resistance to abrasion or punctures. In yet other embodiments, a durability layer could be based on natural or synthetic leather, rigid or semi-rigid plastics, composite materials like carbon fiber, or aramid (aromatic polyamides) fibers, e.g., Kevlar fibers.

[0119] As described earlier, in some embodiments, the inventive subject matter is directed to modular waders with improved coupling systems for coupling removable covering units to the main waders, including magnetic and/or mechanical couplings that are configured to securely and easily attach a covering unit to waders or other garments while such garments are being worn or not worn. In some embodiments, it offers a robust and adaptable connection method that combines the advantages of both magnetic attraction and a mechanical mechanism like male-female elements that inter-engage or hook and loop fasteners. Such coupling systems can be used to connect the circumferential flap on the waders pants legs to the top edge of the pants of the covering unit. While circumferential flaps on the waders pants legs is used as an example of an area for coupling to a covering unit, in other embodiments, couplings could be placed directly on the surface of the pants legs, with complementary couplings of the covering unit overlapping that area of the waders. However, the advantage of a flap is that it can overlap and cover the top edge of the covering unit concealing the top edge and the couplings and blocking them from moisture or dirt, and providing a cleaner looking better aesthetic.

[0120] According to the inventive subject matter, there are various ways to make a waterproof coupling between the covering and the garment using magnetic and mechanical couplings.

[0121] Creating a waterproof coupling between the protective covering and the garment while incorporating both magnetic and mechanical seals is advantageous in the wet conditions in which waders are used. Here are various ways to achieve waterproof couplings:

1. Magnetic Zipper With Mechanical Seal

[0122] Incorporate a waterproof zipper or ziplock seal mechanism with magnetic elements along its length or associated along adjacent parallel lines. The mechanical seal of the waterproof zipper or ziplock mechanism ensures a watertight closure, and the magnets assist in keeping the zipper securely closed, providing an additional layer of protection against water intrusion. (A ziplock seal, also known as a zipper seal or zip closure, can be as follows: two interlocking ribbons or strips, one featuring a series of interlocking teeth or rails and the other with matching grooves or channels. The user can open the seal by separating the two strips and close it by pressing them back together. The tight interlocking of the teeth or rails and grooves may create an airtight and watertight seal.)

2. Magnetic Snap-Fit With Gasket Seal

[0123] A snap-fit (or ziplock type) coupling system with magnetic components and a gasket seal. The gasket provides a waterproof barrier when the snap-fit mechanism is engaged, and the magnets assist in holding the snap-fit components together securely, maintaining the seal.

3. Magnetic Buttons and Flap With Waterproof Lining

[0124] Utilize magnetic buttons or snaps along with a circumferential flap. Add a waterproof lining to the flap that, when folded over and secured with the magnetic buttons, creates a waterproof seal.

4. Magnetic Coupled Flaps With Overlapping Edges

[0125] Configure the covering unit/waders with two overlapping flaps. Each flap has embedded magnets that hold them tightly together, creating a magnetic seal. Ensure that the edges of these flaps are designed to overlap in a way that prevents water from penetrating.

10. Magnetic Cinch Straps or Cords

[0126] Configure covering unit/waders with magnetic cinch straps that cinch over a gasket. The cinch straps or cords can be used to adjust the fit. Sealed pockets may be included for the excess strap or cord material. When the cinch straps or cords are secured using magnets, they ensure a waterproof seal.

11. Magnetic Hook-and-Loop with Sealed Flaps

[0127] Configure covering unit/waders with magnetic hook-and-loop fasteners that combine with flaps designed to be sealed shut. Add seals to the flaps for waterproofing. The magnets assist in maintaining the sealed position.

Exemplary System and Components

[0128] Magnetic and/or Male Component: The magnetic and/or male component of the coupling system may be integrated on the inside or outside of the circumferential flap on the waders. For example, it may consist of a male snap-fit element designed to engage with a corresponding female element on the covering unit. Additionally, the male component may incorporate or be associated with one or more strategically positioned magnets to enhance the connection. In general, a snap-fit connection results in the engage parts being interlocked and resisting disengagement against both horizontal and vertical force components. In other embodiments, there is male-female engagement that resists disengagement from horizontal force components but not necessarily vertical force components. An incorporated or associated magnet could serve to lock the engageable elements together so that they resist disengagement from a vertical force component.

[0129] Female Component: The female component is located at the top edge of the covering unit. It may feature a female snap-fit receptor designed to securely accept the male snap-fit element. Like the male component, the female component also includes one or more magnets or ferromagnetic elements for engagement with a magnet on the waders flap.

[0130] Naturally, the arrangement of male parts and female parts can reverse where male parts are on the covering unit and female parts are on the waders. It is to be understood then that this is the case for all embodiments discussed herein.

[0131] FIGS. 5-9A show representative examples of coupling systems 14 (and like, serial numbering), with the covering unit 12 and waders 10 decoupled. The lower pants legs portions of the waders are omitted for clarity.

[0132] FIGS. 5A-5B show an embodiment where the coupling system 514A/514B consists of spaced apart magnets 15A/15B around the top opening of the covering unit and complementary magnets around a leg portion of the waders. The magnets can be attached in numerous ways, including gluing, encasement in pockets or channel in between layers of the waders. The encasement may be sealed or openable for magnet removability. The magnet set for use in coupling system may be of uniform, size, shape and strength or may vary in any one or more such respect. For example, every third magnet could be larger and stronger to facilitate alignment and coupling.

[0133] Covering unit 12 in FIG. 5A also includes an optional zipper 20 extending from the lower cuff to the top edge. FIG. 5B shows an enlarged view of the zipper at the top edge.

[0134] FIGS. 6A-6B show a waders system in a manner like that of FIGS. 5A-5B and with details of another possible coupling system 614A/614B, with FIG. 6B being an enlargement of a section of the coupling system. In this example, the coupling system has first portion 614A on the waders and second inter-engageable portion 614B on the covering unit. The covering unit portion 614B includes a series of spaced apart hooks 615B that are engageable with spaced apart loops 615A on the waders portion 614A. The loops can be formed by, for example, spaced apart stitchings on a band or web of material to the waders, like in Molle webbing. The foregoing hook and loop coupling system could be supplemented with a set of magnetic elements 614C as another portion of the coupling system (complementary magnetic elements are not shown on the waders but the arrangement is like that of FIG. 5).

[0135] FIGS. 7A-7B show details of another possible coupling system 714A/714B, with FIG. 7B being an enlargement of a section of the coupling system. In this example, the coupling system includes a Covering unit portion 714B with male engagement elements 714B, which may have a square profile, the element may be magnetic. It engages a female element 715A on waders covering unit portion 714A. The female element may be magnetic. The system thereby can provide a magnetic and snap or interference fit.

[0136] FIGS. 8A-8B show a waders system with details of another possible coupling system 814A/814B similar to FIGS. 6A and 6B, with FIG. 8B being an enlargement of a section of the coupling system. In this case instead of the hook, the male part is a t-shaped element 815B that inserts through a loop 815A formed in a strap or band. The t-shaped element is wider than the opening but bendable or twistable so that it can fit through. Once fitted through it resiliently reorients so that the T-shaped portion is wider than the loop opening and engages in an interference fit the sides of the strap or band or other adjacent structure beyond the opening.

[0137] FIGS. 9A-9B show another possible coupling system 914A/914B, with FIG. 6B being an enlargement of a section of the coupling system. In this example, there is a circumferential rail disposed about the waders that engages with a complementary circumferential channel disposed about the covering unit. The engagement may be a watertight, zip lock seal. The rail and track may be magnetic elements for a magnetic and mechanical coupling.

[0138] In summary, the inventive subject matter contemplates a variety of coupling systems for use with a modular covering unit that offers up to 360 degrees of added protection from pin hole leaks, tears, etc., to protect waders, particularly those with a waterproof inner membrane.

[0139] A magnetic portion in the coupling system generally provides ease of use, helping with alignment and engagement, especially for any male and female mechanical part that being drawn to each other. This makes attachment much easier than conventional approaches like having to carefully snap 4-6 snaps, use a 360-degree zipper, or to carefully line up Velcro fastener portions so that they properly attach.

[0140] One of the unexpected challenges solved by the inventive subject matter is with easy and secure connections. The covering unit for the waders may be a 360-degree covering that the user puts onto their leg while wearing a traditional wader. If this were a flat system of attachment with no bend or no turns, the connection would be quite easy to achieve. The inventive subject matter generally uses flexible parts that naturally wrap around the leg without uncomfortable hard parts that cause irritation or chafe, which may wear down a waterproof membrane of waders. The covering unit advantageously can be added over the base waders with relative ease (slip it on and lock it into position), making it an adaptable piece that can be added or taken off as circumstances/conditions demand. For example, if a user is fishing from a boat on a very hot day, they may not want the protective covering unit. If the user is hiking into remote spot with lots of brush, they may want the covering unit. Since the covering unit is a 360-degree shield covering hard to access areas like the back or the leg, many traditional attachment methods like zippers would be hard to engage while in use. The inventive subject matter may optionally include zippers running from the ankle area upward that allow for the covering unit to be opened up and fit over the top of boots, then once in place, can be zipped down for a tight seal. The flap and corresponding magnets in the coupling system help lock the covering unit into place, even behind the leg (thigh area) which is hard to reach.

[0141] The coupling system parts may be molded from a flexible polymer like thermoplastic rubber (TPR), with interlocking male and female parts formed in the molding. Something like this could be used to couple protective sleeve and wader. As noted elsewhere herein, magnetic particles could be blended into the polymer or discrete magnets may be overmolded with polymer or otherwise incorporated in or on the polymer elements.

[0142] The inventive subject matter also optionally offers the ability to add modular knee pad support in a way that is more protective and durable (as it is not attached to the waterproof membrane like other conventional products).

Operation of the System

[0143] Alignment: To attach the protective covering to the garment, the user aligns the male and female components and/or magnetic elements, ensuring that the male snap-fit element is positioned to engage with the female snap-fit receptor.

[0144] Mechanical/Magnetic Engagement: The user applies a gentle force to bring the male and female components (or other mechanical couplings) and/or magnetic elements into contact.

[0145] Magnetic Attraction: Simultaneously, strategically positioned magnets in the complementary mechanical components create a magnetic attraction, enhancing the connection and helping prevent accidental disengagement.

[0146] Secure Attachment: A combination of the mechanical and magnetic attraction results in a secure attachment between the protective covering and the garment.

Advantages of the System

[0147] Security: A dual coupling system using both mechanical and magnetic couplings provides a reliable and secure connection that minimizes the risk of unintended detachment.

[0148] Ease of Use: The user-friendly dual coupling design allows for quick and convenient attachment and removal of the protective covering, as the magnetic attractive forces aid in alignment and coupling of the parts.

[0149] Durability: The dual system provides for continued couplings if one or the other of the magnetic or mechanical couplings fails.

[0150] Customization: The strength and position of the magnets can be customized to meet the specific requirements of the application. For example, in a string of magnets, some relatively large magnets can be interspersed among smaller ones so that the larger magnets can facilitate alignment of the parts being coupled. The larger magnets could have a surface area 2, 3, 4, 5, 6, 7, 8, 9, 10 or more times that of adjacent or nearby smaller magnets.

Integrated Camera Storage System for Easy Image Capture

[0151] Fishermen take pride in not only catching fish but also capturing photographs of their catches. However, in field conditions, it may not be easy to grab and wield a mobile device or camera device to take a photograph or find information, like a map or digital fishing license. The imaging device may be sealed in a waterproof pocket or pouch. Garments for holding mobile phones with cameras on a front chest of certain garments. See, for example, US20200100548, Garment For Carrying Recording Devices; JP3223725U, Hands-Free Smartphone Photography Auxiliary Clothing. However, such systems have various drawbacks, including inadequate ergonomics, and poor protection of the camera or lens systems from the elements. They also lack adequate remote or hands-free means for controlling an imaging device.

[0152] Retrieving the portable device may be exceedingly difficult with the fisherman's hands on a fishing pole, a live fish on the line, standing in water or much, and a short window for a photo because the fish is for catch and release. To address these challenges, in some embodiments, the inventive subject matter provides a phone storage and image capturing system that integrates with waders or other garments, protects the camera or lens systems from the elements, and optionally has advantageous remote-control features.

[0153] An exemplary embodiment is seen in FIGS. 11A-12. Waders 10 include an upper portion 3 and a lower portion 2. The upper portion 10 includes a front chest portion that includes a movable flap 20. An upper portion 21 of the flap is hingeably coupled to the waders' front chest or bib portion. The hinge 22 may allow the flap to flip up or down. In the embodiment shown, the upper portion 21 of flap 20 is free to move by hinging at the lower portion 23. In the example illustrated, the upper edge of the flap moves upward by the hinging at the lower, connected portion. Hinge 22 may be a living hinge of textile material, or it may be a mechanical hinge. In other embodiments, there may be an opposite hinging arrangement where the hinge is at the upper portion of the flap and the lower portion of the flip is free to flip up and down. In yet another possible embodiment the upper and/or lower flap are connected to the waders body using a removeable hinge so that the user can select which end of the flap is hingeably secured to the waders' body, For example, an edge of the flap could be secured to the waders' body using a set of snap fit fasteners, buttons, zippers, magnetic elements, hook and loop fasteners (e.g., Velcro fasteners) disposed along the edge of the flap with complementary elements disposed along the waders body.

[0154] Flap 20 includes or associates with a pocket or pouch 24 for holding an imaging device (not shown) like a mobile phone. The flap and or pouch may be made of flexible or rigid materials.

[0155] Referring to FIGS. 11B-11C, the flap 20 may move from a first position, where the imaging device is stored in a secured position that does not face the elements, to a second position where the imaging device's lens system orients toward a field of view of interest through a window of on one or both sides of the pocket or pouch, e.g., a transparent flexible plastic film. Suitably, the field of view of interest may be the area in front of a fisherman so that a fish being handled by the fisherman can be photographed or videoed. One advantage of locating the system on a front chest or bib area is that it naturally places the imaging device in a position to have a field of view that can capture a fish being handled by a fisherman. Yet it allows for the lens system of a camera to fold down against the front surface of the waders, protecting the lens system from moisture drops, dust, and other elements that can interfere with clear image capture.

[0156] The flap or flap/pouch 20/24 can sit flush over the front surface of the waders. Alternatively, they can be disposed in a pocket formed in the front of the waders. The pocket could be recessed into the front surface to leave the front of the waders with a flush finish. One wall of such a pocket is the inner side of the front surface, and the back wall is an internal panel portion of the wader that is inward of and parallel to the inner side. The frontside and panel are joined so that a pocket has a top opening and closed sides and bottoms. The flap could be connected at the top of the panel, at the opening so that the flap hinges out of the pocket. The top opening could be sealable using a zipper system or other closure means. The pocket can be constructed of waterproof materials and a watertight closing means. The pocket is sized and shaped to hingeably receive not only the flap (or flap/pouch) but also an associated mobile device.

[0157] To secure flap 20 and imaging device in an active position for capturing the desired field of view, the flap may have means to engage with complementary means on the waders or other garment. For example, looking at FIGS. 11A-12, flap 20 has a pair of magnet elements 28B and/or mechanical inter-engageable elements 29A on lower and/or upper portions. The flap may be removably secured to waders by arranging the inter-engageable elements 28B/29B at four corners or in other arrangements that fix the flap to the waders. When the flap and coupled camera flip upwards, the magnets and/or mechanical couplers align with complementary elements 28A/29A disposed on or in the waders. In the example, complementary magnets or other inter-engageable elements may be disposed on the shoulder straps of the waders. Naturally, complementary pairing magnetic elements can take the form of any magnetically attractable elements, including magnets of opposite polarity or a magnet attracting to a ferrous metal or material. Other engagement means include hook and loop fasteners like Velcro TM brand fasteners, snaps, buttons, etc. Or couplings systems like those detailed earlier for coupling covering unit 12 to waders 10.

[0158] The pocket or pouch 24 that an imaging device is placed in or coupled to may include one or more sides with a transparent window or windows that that can align adjacent with the lens system of the imaging device. The window may be made of a flexible plastic, firm plastic, or tempered glass. The pocket or pouch may be full enclosure that is waterproof or water resistant. The enclosure may use any known waterproofable openings like zippers, zip seals, folding/clamped housing extensions, etc. In some embodiments of the pocket or pouch for orienting a camera to any flipped position of the pocket or pouch.

[0159] The hinge joint 22 for flap 20 and the surface of a waders or other garment may be a permanent or removable connection. For example, it could connect permanently using engagement means like stitching, glue, fused materials, etc. It could removable connect using zippers, hook-and-loop fasteners like Velcro brand fasteners, snaps, buttons, etc.

[0160] In some embodiments, the flap 20 is a flat, sheet structure. The imaging device is couplable direct to it or a pouch for holding the device is couplable to it. Coupling could be achieved by magnets or other engagement means discussed above.

[0161] The inventive subject may incorporate a modular Bluetooth trigger 26 that can be used remotely from the imaging device, e.g., coupled to the user's wrist or finger so that the user can effortlessly snap pictures while holding fish or watching game feeding, etc. The trigger can be a Bluetooth remote control, for example. Using a Bluetooth trigger on a finger, e.g., in a ring, would allow the fishermen and outdoor enthusiast to capture shots easily, and without extra movement of commotion (which in hunting can be crucial). Having it on a ring finger or wrist, also secures it from falling into the water or getting lost in the shuffle.

[0162] Remote devices for controlling imaging application in mobile devices are well known. Typically, these remote-control systems interface with Bluetooth modules on a mobile imaging device. See, for example, US20150180527, Protective Case For Mobile Device With Displaced Camera Control (https://patents.google.com/patent/US20150180527A1/en) and U.S. Pat. No. 9,742,975, Portable Digital Video Camera Configured For Remote Image Acquisition Control And Viewing (https://patents.google.com/patent/US9742975B2/en,) which are hereby incorporated by reference in their entireties for all purposes

[0163] In addition to Bluetooth systems, a variety of other communication means may be employed to control a body-mounted imaging device and receive to information from it. These may include but are not limited to: WIFI, packet radio, FM, AM, CDMA, infrared, and cable connections. In addition, a remote device could have a hard-wired connection to the imaging device using a standard communications port on a mobile device. The waders or other garments may include built in cables or other conduits for connecting a remote device to the mobile device. For example, the conduit could route from the pocket or pouch for holding the mobile device to a wrist or other sleeve area, a hip or other waist area for mounting the remote device.

[0164] In addition to chest-mounted imaging devices, other locations where a hingeable flap can be mounted to provide frontal field of view when the flap is hinged upwardly with an associated camera include the pelvic region of a waders or other garment. Another option would be locating the flap on an item of headwear, which may be separate from or integrated with a waders or other garment.

Coated And Integrated Bootie System

[0165] A foot covering, for example a bootie, may integrate with the cuff area at the bottom of the pants portion of waders. When integrated, the bootie and the pants are connected in a durable, waterproof seal. Advantageously, the system allows for dissimilar materials to be joined in such a fashion. Booties are often made of Neoprene rubber, which provides substantial thermal insulation even when wet. In contrast, the pants are made of textile and/or membrane materials. Therefore, the pants and bootie are not formed in the same process and must be connected. Traditional ways of connecting the pants and bootie include stitching followed by seam taping to waterproof the seams. Booties themselves also have seams where sections of Neoprene or other material joint together and are similarly seam taped. Different portions of a bootie or a bootie and pants can be joined using known stitching techniques like blindstitch, overlock stitch, and flatlock stitch. The joint areas may be coated with a moldable polymer using injection molding, spray include perforations that facilitate drainage, drying, and ventilation.

[0166] The moldable polymer used to join the pants and bootie may be the same or different from what is used to join bootie to bootie sections. For example, nitrile rubber may be used to coat the bootie-to-bootie joints. Nitrile may extend beyond the seams to enclose larger areas of the bootie that need wear protection. Notably, not all seams need to be coated. Some seams in low wear areas at the top of the foot, for example, may not need to be coated. The coating can be over taped seams or replace tape.

[0167] In the bootie to pants joint, a different material may be used instead of nitrile that provides better bonding or flexibility, such materials may include PU, TPU, latex, and other kinds of rubbers.

[0168] In one possibility, the edge portions of the pants and bootie are overlapped or placed adjacent one another, and the moldable polymer material applied to overlap the joint formed between those portions, creating a flexible, durable, bridging seal over the joint. The seal may be a waterproof seal. The pants material may be a fabric or sheet material based on polyamides, polyesters, rubbers, vinyls, ePTFE membranes and other waterproof/breathable membranes, and other known natural or synthetic fabric materials. The bootie may be formed from sheets or panels of flexible insulating materials that consist of, include, or are derived from, rubber and rubbery alternatives, including natural and synthetic rubbers like neoprene rubber (polychlorophene), ARIAPRENE rubber, Guayule-based (e.g., Yulex), elastane (e.g., Lycra), Thermocline rubber, and limestone neoprene, EPDM, thermoplastic elastomers (e.g., TPU), and other open- or closed-cell rubbers or rubbery materials, and silicone.

Perforated Covering Units

[0169] Looking at FIGS. 1C, 3A-3B, and 4B, the covering unit 12 may include a pattern of perforations 30 and 32 on its backside. In addition to pants leg portions, a pattern of perforations may be formed on any other desired portion of a covering unit, including portions intended to cover the chest, the back, the buttocks, the feet, and/or the arms.

[0170] The pattern of perforations 30 will allow water to drain from between the sleeve and the waders after immersion. They also allow for venting of any trapped water or ventilation for cooling. The perforated pattern can be on any full or partial portion of the covering unit, backside, frontside, left side, and/or right side. The diameter or minimum width of each perforation may be from about 0.5 mm to about 20 mm, although other dimensions may be suitable, depending on the intended effect. The perforations may have a density per square centimeter of from about 20/cm.sup.2 to 0.25/cm.sup.2, although other dimensions may be suitable, depending on the intended effect. A pattern of perforations may be distributed over an area of at least about 9 cm.sup.2 to at least about 7500 cm.sup.2. or printing and other techniques.

[0171] Patterns 32 are disposed in an area behind the knee or the lower hamstrings. They provide for improve drainage of water that may be trapped near the coupling area of the waders system. Water collected in that area could be expelled when a user moves towards a squatted position.

[0172] The perforations may be formed in a textile material during a knitting or weaving process, by laser cutting, mechanical punching, and other known techniques.

[0173] Persons skilled in the art will recognize that many modifications and variations are possible in the details, materials, and arrangements of the parts and actions which have been described and illustrated to explain the nature of the inventive subject matter, and that such modifications and variations do not depart from the spirit and scope of the teachings and claims contained therein.

[0174] For example, any of the various embodiments or features thereof may be combined in any number of permutations. For example, the modular wader systems could be combined with the mobile device holder, the integrated bootie and/or the perforated covering unit. Further, although the waders illustrated in the Figures are chest-high waders, the inventive subject matter may be embodied in other types of waders, including hip waders and waist-high waders, which do not extend above the user's waistline.

[0175] All patent and non-patent literature cited herein, if any, is hereby incorporated by references in its entirety for all purposes.

[0176] As used herein, and/or means and or or, as well as and and or. Moreover, any and all patent and non-patent literature cited herein is hereby incorporated by references in its entirety for all purposes.

[0177] The principles described above in connection with any particular example can be combined with the principles described in connection with any one or more of the other examples. Accordingly, this detailed description shall not be construed in a limiting sense, and following a review of this disclosure, those of ordinary skill in the art will appreciate the wide variety of systems that can be devised using the various concepts described herein. Moreover, those of ordinary skill in the art will appreciate that the exemplary embodiments disclosed herein can be adapted to various configurations without departing from the disclosed principles.

[0178] Unless context indicates otherwise, all numerical range values provided are inclusive of not only the end points of ranges but any points in between, and any ranges in between the end points.

[0179] The previous description of the disclosed embodiments is provided to enable any person skilled in the art to make or use the disclosed innovations. Various modifications to those embodiments will be readily apparent to those skilled in the art, and the generic principles defined herein may be applied to other embodiments without departing from the spirit or scope of this disclosure. Thus, the claimed inventions are not intended to be limited to the embodiments shown herein but are to be accorded the full scope consistent with the language of the claims, wherein reference to an element in the singular, such as by use of the article a or an is not intended to mean one and only one unless specifically so stated, but rather one or more.

[0180] All structural and functional equivalents to the elements of the various embodiments described throughout the disclosure that are known or later come to be known to those of ordinary skill in the art are intended to be encompassed by the features described and claimed herein. Moreover, nothing disclosed herein is intended to be dedicated to the public regardless of whether such disclosure is explicitly recited in the claims. No claim element is to be construed as a means plus function claim under US patent law unless the element is expressly recited using the phrase means for or step for.